Stanford Mechanics and Computation

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  1. Charles Steele
  2. Chris Fang-Yen
  3. Computational Homogenization of Random Network Microstructures in Soft Matter Materials
  4. Computational Models for Cochlear Mechanics
  5. Constraint forces on small elastic structures arising from thermal fluctuations
  6. Courses
  7. DUCTILE FRACTURE: Theory, Model Identification and Industrial Applications
  8. Damage Detection in Laminated Structures using Wavelet Transformation of Global Response
  9. Daniel Balzani
  10. David Barnett
  11. Daya Reddy
  12. Deformation of Plastically Compressible Hardening-Softening-Hardening Solids
  13. Detournay
  14. Development of a Microfluidic Lung
  15. Dirk Gillespie
  16. Doreen Wood
  17. Duartei
  18. Dynamic Biomechanics Of The Aqueous Humor And Iris
  19. Dynamic strain localization, failure and fragmentation
  20. Dynamics of Nanomechanical Cantilever Devices in Fluid with Applications to Atomic and Molecular Sensing
  21. Edin Sarajlic
  22. Editing Instructions
  23. Edmund Webb
  24. EduardoDvorkin
  25. Elasticity, Fracture and Piezoelectricity Size Effects in Semiconducting Nanowires
  26. Electrostatic Micromotors and Micromachining Methods for their Fabrication
  27. Ellen Kuhl
  28. EllisMeng
  29. Encased cantilevers and alternative scan algorithms for ultra-gentle high-speed Atomic Force Microscopy
  30. Eshelby Dislocation and Twisting of Nanowires
  31. Espinosa
  32. Evan Reed
  33. Evelyn Wang
  34. Extreme mechanics: Unraveling the high temperature and pressure dynamics of shock compressed materials
  35. Fall08
  36. Fall0809
  37. Fall0910
  38. Fall1011
  39. Fall1112
  40. Fall1213
  41. Fall1314
  42. Fall1415
  43. Fall1516
  44. Fall1617
  45. Fellowships
  46. Folded and Crumpled Two-Dimensional Materials – Where Shape Enables New Functions
  47. Fracture and delamination in the presence of interfacial sliding: application to mechanical degradation of thin film Si electrodes on substrates
  48. FrankSachse
  49. Freund
  50. From Droplets to Nanowires: Dynamics of Vapor-Liquid-Solid Growth
  51. Fujita
  52. Fundamental Atomistic Mechanisms of Capillary Flow
  53. Garikipati
  54. Gecko Adhesion
  55. Gerard Ateshian
  56. Givoli
  57. Glaucoma and Computational Multi-Scale Modeling of the Human Eye
  58. Grain Growth: A Case Study of Multi-Scale Modeling
  59. GregHulbert
  60. Guang Lin
  61. High Order Discontinuous Galerkin Methods For Systems Of Conservation Laws
  62. High Power and High Energy Systems at Small Scales
  63. Huajian Gao
  64. Ignacio Romero
  65. Imaging and Modeling of Cardiac Cells and Tissues
  66. Inhomogeniety and size of microstructure - a new paradigm in understanding deformation mechanism of nano crystalline metals
  67. Inverse Wave Problems, Time Reversal and Damage Identification
  68. Isogeometric Analysis of Solids, Structures, and FSI: From Early Results to Recent Developments
  69. Jaume Peraire
  70. Jeremy Templeton
  71. Jimmy Hsia
  72. Joe Howard
  73. JohnBassani
  74. K. Ravi-Chandar
  75. KC Park
  76. Katia Bertoldi
  77. Kim Turner
  78. King signup link
  79. Kit Parker
  80. Klaus W. Schwarz
  81. Kris Dahl
  82. LeonKeer
  83. LlorcaAbstract
  84. Lorca
  85. Lorna Gibson
  86. MEMS and Nanotechnology for the Automotive Market
  87. Main Page
  88. Making devices based on ion-ion correlations in nanofluidics, biology, and beyond
  89. Marino Arroyo
  90. MarkusBuehler
  91. Mary boyce
  92. Mathematical models for the cardiovascular system: numerical simulation, control and optimization, clinical applications
  93. Matrix Regulation of Mesenchymal Stem Cells: Implications for Heart Valve Disease
  94. Matteo Negri
  95. Mechanical Behavior of Cells on Tissue Engineering Scaffolds
  96. Mechanical Engineering in the Biotech Century
  97. Mechanical Investigation of Naturally-Occurring High Performance Materials
  98. Mechanical Signaling by Motor Proteins during Mitosis and Cell Motility
  99. Mechanical Signaling in Cells and Tissues
  100. Mechanical and Chemical Effects in the Adhesion of Shells

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